Enhancing the performance of heat radiation and magnetic Nanomaterial's for couple stress trihybrid Nanofluid: Insinuations for biomedical applications

In this paper, the trihybrid hybrid nanofluid bioconvective flow at the stagnation-point with gyrotactic microbes, thermal radiation, and viscous dissipation is considered. Biomedical applications like as medication delivery and the flow dynamics of microcirculatory systems might benefit from the effects of an external and induced MF (magnetic field) produced by Couple Stress THNF (trihybrid Nanofluid) flow over a sheet. In essence, the blood flow is designated by the pair stress fluid model. The purpose is to establish a connection between the recent study and drug delivery applications. This inquiry can provide a clear understanding of the mass and heat transmission behavior of blood flow in a circulatory system as well as numerous hyperthermia treatments, such as the treatment of cancer. The used ternary hybrid nanofluid has blood as the improper liquid along with C u , C u o , F e 2 O 3 . The dimensional ODEs are derived from the basic PDEs utilizing the necessary similarity variables. The bvp4c method and a shooting approach are used to show the numerical results of the sped-up equations and boundary conditions. The velocity profile rises with a greater Marangoni convection parameter, whereas the temperature and solutal profiles decrease. Furthermore, the Yamada-Ota ternary hybrid nanofluid model is more important than the Xue model.